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淋巴液流动在体内调节集合淋巴管成熟。

Lymph flow regulates collecting lymphatic vessel maturation in vivo.

作者信息

Sweet Daniel T, Jiménez Juan M, Chang Jeremy, Hess Paul R, Mericko-Ishizuka Patricia, Fu Jianxin, Xia Lijun, Davies Peter F, Kahn Mark L

出版信息

J Clin Invest. 2015 Aug 3;125(8):2995-3007. doi: 10.1172/JCI79386. Epub 2015 Jul 27.

Abstract

Fluid shear forces have established roles in blood vascular development and function, but whether such forces similarly influence the low-flow lymphatic system is unknown. It has been difficult to test the contribution of fluid forces in vivo because mechanical or genetic perturbations that alter flow often have direct effects on vessel growth. Here, we investigated the functional role of flow in lymphatic vessel development using mice deficient for the platelet-specific receptor C-type lectin-like receptor 2 (CLEC2) as blood backfills the lymphatic network and blocks lymph flow in these animals. CLEC2-deficient animals exhibited normal growth of the primary mesenteric lymphatic plexus but failed to form valves in these vessels or remodel them into a structured, hierarchical network. Smooth muscle cell coverage (SMC coverage) of CLEC2-deficient lymphatic vessels was both premature and excessive, a phenotype identical to that observed with loss of the lymphatic endothelial transcription factor FOXC2. In vitro evaluation of lymphatic endothelial cells (LECs) revealed that low, reversing shear stress is sufficient to induce expression of genes required for lymphatic valve development and identified GATA2 as an upstream transcriptional regulator of FOXC2 and the lymphatic valve genetic program. These studies reveal that lymph flow initiates and regulates many of the key steps in collecting lymphatic vessel maturation and development.

摘要

流体剪切力在血管发育和功能中具有既定作用,但这种力是否同样影响低流量的淋巴系统尚不清楚。由于改变血流的机械或基因扰动通常会对血管生长产生直接影响,因此很难在体内测试流体力的作用。在这里,我们利用血小板特异性受体C型凝集素样受体2(CLEC2)缺陷的小鼠来研究血流在淋巴管发育中的功能作用,因为血液会回流到淋巴网络并阻断这些动物的淋巴流动。CLEC2缺陷的动物表现出初级肠系膜淋巴丛正常生长,但这些血管未能形成瓣膜,也未能将其重塑为结构化的分级网络。CLEC2缺陷的淋巴管的平滑肌细胞覆盖(SMC覆盖)既过早又过度, 这一表型与淋巴管内皮转录因子FOXC2缺失时观察到的表型相同。对淋巴管内皮细胞(LEC)的体外评估表明,低的、反向的剪切应力足以诱导淋巴管瓣膜发育所需基因的表达,并确定GATA2是FOXC2和淋巴管瓣膜遗传程序的上游转录调节因子。这些研究表明,淋巴流动启动并调节了收集淋巴管成熟和发育中的许多关键步骤。

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